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Vol 241
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3
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RUS ENG

Prospects for industrial methane production in the mine n.a. V.M.Bazhanov using vertical surface wells

Authors:
V. R. Alabev1
V. D. Ashihmin2
O. V. Plaksienko3
R. A. Tishin4
About authors
  • 1 — Kuban State Technological University, Krasnodar ▪ Orcid
  • 2 — Makeyevsky Research Institute for Safety of Works in the Mining Industry, Makeyevka, Ukraina
  • 3 — Makeyevsky Research Institute for Safety of Works in the Mining Industry, Makeyevka, Ukraina
  • 4 — Makeyevsky Research Institute for Safety of Works in the Mining Industry, Makeyevka, Ukraina
Date submitted:
2019-05-30
Date accepted:
2019-09-04
Date published:
2020-02-25

Abstract

The estimated methane resources in the coal stratum of Donbass are 798.5 billion m 3 , including 119.5 billion m 3 in the Donetsk-Makeevsky area. Such significant potential implies that methane can be used not only for industrial production and energy purposes but also as a commodity for the chemical industry. However, in practice, commercial production of methane from coal seams, as is done in the fields of the USA, Canada, India, and China, is not carried out, and methane, obtained as a by-product, is utilized for ensuring the safety of the main technological processes for coal mining. The main reasons for this are the difficult mining and geological conditions of bedding, low thickness and permeability, which does not allow to separate methane production into an independent type of activity due to its low profitability, especially with the use of new technologies based on hydraulic fracturing of coal seams. The assessment of the possibility of industrial methane production in the mine n.a. V.M.Bazhanov in the Donetsk-Makeevsky area of Donbass, which reserves equal to 23.7 billion m 3 , showed that a significant part of the methane reserves is concentrated in coal seams and interlayers with a gas content of 18.5-20.7 m 3 /m 3 . Moreover, in the host rocks, methane is practically in a liberated state. This circumstance makes possible the commercial production of methane for its utilization from the unloaded rock mass by wells drilled from the surface, without the use of hydraulic fracturing technology. The paper discusses the technology of methane extraction by a degassing well drilled from the surface into a coal-bearing stratum unloaded from rock pressure in a mining field of the 4th eastern face of the m 3 seam of the mine n.a. V.M.Bazhanov and its subsequent use as the fuel of an electric generator. It is shown that over the entire period of operation of the pilot well, the volume of actually produced methane exceeded the design value by 23 %, and the cost of the gas produced amounted to 1535 rubles per 1000 m 3 , which is more than 3 times lower than the market price for natural gas for consumers in the Russian Federation. This made it possible to make a conclusion about the possibility of industrial extraction of mine methane using vertical surface wells for its subsequent utilization in power plants, which does not imply the usage of hydraulic fracturing technology.    

10.31897/pmi.2020.1.3
Go to volume 241

References

  1. Alabyev V.R., Korshunov G.I. Safety provision during heating of coal downcast shafts with gas heat generators using de-gassed methane. Zapiski Gornogo instituta. 2017. Vol. 225, p. 346-353. DOI: 10.18454/PMI.2017.3.346 (in Russian).
  2. Bokii B.V. Fundamentals of industrial technology for the extraction and use of methane. Gornyi informatsionno-analiticheskii byulleten. 2007. S13, p. 360-367 (in Russian).
  3. Bokii B.V., Kasimov O.I. Design and effective application of degassing of worked out spaces. Geotekhnicheskaya mekhanika. Dnepropetrovsk. 2003. N 42, p. 9-18 (in Russian).
  4. Anciferov A.V., Tirkel M.G., Hohlov M.G., Privalov V.A., Golubev A.A., Maiboroda A.A., Antsiferov V.A. The gas bear-ing capacity of the coal deposits of Donbass. Kiev: Naukova Dumka, 2004, p. 232 (in Russian).
  5. Degassing of coal mines. Requirements for methods and schemes of degassing. UPS 10.1.00174088.001-2004. Kiev:
  6. Mintopenergo Ukrainy, 2004, p. 162 (in Russian).
  7. DNHSR 1.1.30-6.09.93. Coal Mine Ventilation Design Guide. Kiev: Osnova, 1994. p. 311 (in Russian).
  8. Zvyagilskii I.E., Bokii B.V., Kasimov O.I. Prospects for the development of degassing at the mine n.a. Zasyadko. Ugol Ukrainy. 2003. N 12, p. 35-39 (in Russian).
  9. Instructions for the determination and prediction of gas content of coal seams and host rocks during exploration. Moscow: Nedra, 1977, p. 96 (in Russian).
  10. Wholesale prices for gas produced by PJSC Gazprom and its affiliates, sold to consumers in the Russian Federation (except for the population). URL: http://www.gazprom.ru/about/marketing/russia/ (date of access 04.04.2019) (in Russian).
  11. Ruban A.D., Artemev V.B., Zaburdyaev V.G., Zakharov V.N., Loginov A.K., Yutyaev Yu.P. Preparation and development of high gas-bearing coal seams. Moscow: Gornaya kniga, 2010, p. 500 (in Russian).
  12. Reznik G. Methane “paradise”. URL: http://uaenergy.com.ua/post/3 (date of access 04.04.2019) (in Russian).
  13. Averchenkov A.A., Galenovich A.Yu., Safonov G.V., Fedorov Yu.N. Regulation of greenhouse gas emissions as a factor in increasing Russians competitiveness. Moscow: NOPPPU, 2013, p. 88 (in Russian).
  14. Heating systems for air supply barrels with fire heaters using methane-air mixture. SOU 10.1.00174088.004-2005. Kiev: Minugleprom Ukrainy, 2005. p. 14 (in Russian).
  15. Transportation and use of methane captured by mine degassing systems. Safety requirements. SOU-P 10.1.00174088.015:2008. Kiev: Minugleprom Ukrainy, 2008, p. 16 (in Russian).
  16. Gas-turbine power station “MOTOR SICH” EG 1000 T-T400-ZUHL 1. URL: http://paes250.ru/ru/eg-1000t-t400-zuhl1/index.html (data obrashcheniya 23.04.2019) (in Russian).
  17. Coalbed methane. URL: https://en.wikipedia.org/wiki/Coalbed_methane (date of access 04.04.2019).
  18. Coalbed methane in the United States. URL: https://en.wikipedia.org/wiki/Coalbed_methane_in_the_United_States
  19. (date of access 10.04.2019).
  20. Coal Bed Methane: From Prospect to Pipeline. Ed. by Pramod Thakur, Steve Schatzel, Kashy Aminian. USA, San Diego: El-sevier, 2014, p. 440.
  21. Litvinenko V.S. Technological progress having impact on coal demand growth. XVIII International Coal Preparation Congress: Saint-Petersburg, 28 June – 01 July 2016. Springer International Publishing. 2016. Vol. 1, p. 3-16. DOI: 10.1007/978-3-319-40943-6_1

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